EP2S180F1508C4TT
EP2S180F1508C4TT - 180K Logic Elements FPGA | Altera | High-Performance Digital Logic
Altera EP2S180F1508C4TT is a high-performance Stratix II field-programmable gate array built for demanding programmable digital-logic systems. The verified listing identifies approximately 180,000 logic elements, 1,170 user I/O pins, a 1,508-ball fine-pitch BGA package, and a -T temperature-grade designation. These headline characteristics position the device as a large, I/O-rich FPGA suitable for designs requiring substantial parallel logic, interface aggregation, and configurable digital signal processing.
A field-programmable gate array, or FPGA, is a semiconductor device containing programmable logic blocks, configurable interconnects, and programmable input/output resources. Designers configure these resources after PCB assembly to implement digital circuits, processors, interfaces, control logic, and data-processing pipelines. Within the semiconductor hierarchy, an FPGA belongs to programmable logic and is related to CPLDs while generally offering higher logic capacity. Stratix II is Altera's high-density FPGA family for high-performance applications.
The defining features of EP2S180F1508C4TT are its approximately 180,000 logic elements, 1,170 user I/O pins, and 1,508-ball FBGA package. The high logic-element count supports broad datapaths, protocol bridges, embedded control, and multiple parallel processing functions on one device. Its large user-I/O count is valuable when a system must connect many buses, transceivers, memory interfaces, converters, or peripheral controllers. The fine-pitch BGA package provides dense interconnects but requires advanced PCB fabrication, assembly, inspection, and signal-integrity planning.
Technically, Stratix II devices combine configurable logic fabric with routing resources, memory blocks, clocking resources, DSP-oriented blocks, and programmable I/O. Firmware determines the implemented digital architecture, so power, timing, thermal behavior, and pin assignment remain design-dependent. A large BGA also creates extensive simultaneous-switching-current, decoupling, plane-integrity, and escape-routing challenges. Engineers should use the official family documentation and supported Intel FPGA development tools when compiling, configuring, and validating a design.
Typical applications include telecommunications and networking equipment, industrial automation and test systems, high-density interface bridging, video or imaging processing infrastructure, digital signal-processing controllers, and defense or aerospace electronics. The 1,170-I/O capability is especially useful where several external buses must terminate on one processing device. Engineers should choose this component when logic capacity, I/O density, and high-end programmable performance outweigh package complexity, power demands, and legacy-device availability.
A primary design consideration is the 1,508-ball FBGA land pattern: it cannot be treated as a simple, low-pin-count FPGA. Follow the official BGA pin assignment, bank rules, voltage sequencing, decoupling guidance, and thermal recommendations, then verify all timing, power integrity, and signal-integrity constraints in the selected speed grade. This page synthesizes verified identity, package, I/O, and logic-capacity data with package-aware comparison guidance; missing electrical and thermal limits remain explicitly identified rather than estimated.
RFQ
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